Abstract global cloud and edge network
Technical Deep-Dive

Akamai Cloud × libp2pProject Overview

A concise brief for tomorrow’s meeting covering our libp2p-based decentralized networking projects, current infrastructure, and how Akamai Cloud fits into the multi-cloud strategy powering the Cisco AGNTCY initiative.

Date
Wednesday, August 5, 2026
Time
3:00 PM EST
Host
Luis Beltran, Akamai
Account
libp2p-dev (EU region)

Executive Summary

Why we are meeting and what we hope to accomplish.

Context

libp2p/Protocol Labs runs AWS-based infrastructure today and is evaluating Akamai Cloud as part of a broader multi-cloud strategy for decentralized AI and IoT workloads.

Goal

Identify how Akamai Cloud can support py-ipfs-lite and Universal Connectivity scaling, and define a practical Proof of Concept aligned with Cisco’s AGNTCY initiative.

Desired Outcome

A tailored Akamai architecture recommendation, usage-credit plan, and clear next steps for a multi-cloud deployment with observability and cost governance.

Projects in Scope

The two technical workstreams we plan to scale with Akamai Cloud.

Primary focus

py-ipfs-lite

A lightweight IPFS implementation in Python. It provides content-addressed storage and retrieval primitives for applications that need IPFS compatibility without running a full Kubo node.

  • Content-addressed storage and retrieval
  • Low-resource Python runtime
  • Used in decentralized AI and IoT pipelines
  • Targets multi-cloud and edge deployments
Secondary focus

Universal Connectivity

A libp2p-based connectivity initiative that makes peer-to-peer networking reliable across transports, NATs, and runtime environments. It is a core enabler for distributed applications.

  • libp2p transport abstraction
  • NAT traversal and relay support
  • Cross-platform SDK targets
  • Supports globally distributed peers

Cisco AGNTCY Initiative

Both projects are aligned with Cisco’s AGNTCY program, where libp2p is a partner. The initiative focuses on agentic, autonomous, and decentralized AI systems. Reliable cloud infrastructure is essential for hosting libp2p-based networking layers at scale.

R&D Initiatives

Research and standards work presented at IETF 126 (Vienna) that a multi-region Akamai footprint would directly accelerate — global measurement vantage points, relay and bootstrap diversity, and edge nodes for agent-network experiments.

IETF 126 · MAPRG

Verifiable Telemetry Objects (CBOR-42)

A common measurement framework for large-scale libp2p deployments: deterministic CBOR encoding, content-addressed telemetry, and cryptographic provenance that turns operational exhaust into reproducible scientific artifacts.

  • Verification shell: signatures, CIDs, org attestations
  • Provenance metadata: implementation, version, environment
  • Deterministic CBOR (RFC 8949) for reproducible hashing
  • IPFS/Filecoin-backed benchmark repositories
IETF 126 · IEPG

Operating & measuring agent networks

Early operational lessons from running AGNTCY over libp2p: quantifying the hidden discovery tax, relay dependency, and NAT complexity across cloud, enterprise, Kubernetes, edge, and residential environments.

  • Discovery latency as workflow latency
  • Direct connectivity vs. relay dependency baselines
  • Identity-aware telemetry linking peer IDs to agent traces
  • Cross-layer correlation: agent → protocol → network
Standards track

DAWN, DMSC & agentproto

Active participation in emerging agent-networking work — Discovery of Agents, Workloads and Named entities (DAWN), Dynamic Multi-agent Secured Collaboration (DMSC), and agent communication protocols — alongside Cisco, Ericsson, Huawei, Alibaba, and China Telecom.

  • Cisco AAIF observability and DAWN BoF participation
  • MAPRG measurement work with Ericsson
  • DMSC problem statement and use cases
  • Feeding research outputs into libp2p spec modules
Architecture

SLIM over libp2p

The joint AGNTCY × libp2p stack: SLIM for multi-agent coordination, Kademlia DHT for capability discovery, and libp2p primitives (QUIC, WebRTC, WebSockets, TCP) as the transport-agnostic core with self-sovereign Ed25519 peer identities.

  • Capability-based routing via Kademlia DHT
  • IPLD-backed execution DAGs for auditable agent decisions
  • CID deduplication to cut duplicate model downloads
  • Intelligent workload routing across a resource marketplace
Implementation

py-libp2p & unified testing framework

Cross-implementation conformance across Go, Rust, JavaScript, and Python nodes, with a unified testing harness producing comparable performance baselines and a Wireshark-style dissector layer for higher-level telemetry.

  • Cross-language interop and conformance runs
  • Standardized performance baselines per transport
  • py-libp2p, py-cid, py-multiaddr ecosystem maturity
  • Luminar prototype for decentralized telemetry aggregation
Open questions

Privacy-preserving & AI-native measurement

Research topics we would like Akamai's edge footprint to help answer: selective disclosure in verifiable telemetry, differential privacy for network observations, and taxonomy extensions for distributed inference.

  • Selective disclosure within verifiable artifacts
  • Differential privacy for shared measurements
  • Taxonomy extensions for multi-agent execution
  • Longitudinal dataset preservation and retrieval

$100B+

Secured across deployments

30+

Production networks

10+

Active implementations

300+

Monthly contributors

Technical Priorities

The capabilities we want to validate during the deep-dive.

Multi-cloud portability

Run the same deployment workflows on AWS, Akamai Cloud, and self-managed infrastructure with minimal changes.

Decentralized AI / RAG workloads

Host retrieval-augmented generation and distributed AI experimentation infrastructure with predictable egress pricing.

libp2p networking layer

Deploy reliable bootstrap, relay, and signaling nodes for peer-to-peer connectivity across regions.

Observability & cost governance

Gain visibility into multi-cloud spend and usage as workloads grow 3–4x with user adoption.

Security & compliance

Evaluate HIPAA-ready controls and hardened networking for future enterprise and healthcare-facing workloads.

Edge & content distribution

Leverage Akamai’s distributed edge for content-addressed and globally distributed applications.

Proposed Credit Allocation

How we plan to use the $5,000 Akamai Cloud credits.

WorkstreamPrimary UseExpected Outcome
py-ipfs-liteCompute and storage nodes for IPFS-lite testing, CI/CD build runners, and multi-region validation.Validated deployment template and performance baseline on Akamai Cloud.
Universal ConnectivityLong-running bootstrap/relay nodes, NAT traversal test beds, and cross-provider peer simulations.libp2p connectivity benchmark comparing Akamai, AWS, and self-hosted nodes.
Shared platformMonitoring, logging, artifact storage, and documentation hosting for both projects.Observable, documented multi-cloud reference stack.

Architecture Overview

A high-level view of how Akamai Cloud fits into our stack.

Current environment

  • AWS for primary cloud infrastructure and CI/CD
  • Filebase, rclone, and IPFS for decentralized storage
  • Self-managed Linux servers and on-prem test environments
  • Monthly cloud spend: ~USD 2,400–2,500; expected 3–4x growth

Target multi-cloud stack

  • Akamai Cloud for compute, storage, and edge workloads
  • AWS retained for existing CI/CD and specialized services
  • libp2p as the unified networking layer across providers
  • Standardized SDKs and deployment tooling

Note: Detailed architecture diagrams and instance configurations will be shared ahead of the meeting to help the Akamai Solution Architect prepare a tailored recommendation.

Meeting Agenda

Proposed 60-minute flow for the deep-dive.

  1. 1

    Welcome & context recap

    3:00 PM

    Confirm attendees, agenda, and desired outcomes.

  2. 2

    Project deep-dive

    3:05 PM

    Walk through py-ipfs-lite, Universal Connectivity, and the Cisco AGNTCY alignment.

  3. 3

    R&D initiatives & IETF 126 outputs

    3:20 PM

    Verifiable telemetry (CBOR/VTO), agent-network measurement, and the standards roadmap.

  4. 4

    Current architecture & Akamai Cloud fit

    3:32 PM

    Review AWS setup, spend and growth, then compute, storage, egress, edge, and observability on Akamai.

  5. 5

    POC & credits

    3:45 PM

    Define a 30-day proof of concept and map the $5,000 credit allocation.

  6. 6

    Next steps & close

    3:55 PM

    Assign action items and schedule the follow-up session.

Next Steps

Actions we are preparing to discuss and confirm.

libp2p team

Share architecture diagrams and instance configurations.

Akamai team

Prepare a tailored architecture recommendation and credit usage plan.

Both teams

Define a 30-day POC scope for py-ipfs-lite and Universal Connectivity.

Akamai team

Introduce US and Europe account representatives and grant/funding contacts.

Attendees

Who will be on the call.

MS

Manu Sheel

libp2p / Protocol Labs

JM

Johanna Moran

Strategy Lead · libp2p

LB

Luis Beltran

Account Executive · Akamai Cloud

AP

Aastha Pabuwal

Cloud Consultant · Akamai

PR

Praveena Reddy

Sr. Inside Sales Representative · Akamai

References

Key initiatives and communities tied to this meeting.